A dynamic value expression, that is, the keyword ‘dynamic’ followed by any number of named arguments and a (possibly empty) argument list, enclosed in brackets.

Examples:

dynamic [ error = 404; message = "not found"; ]
dynamic [ ]

no subtypes hierarchy

Initializer
DynamicValue(NamedArgument[] namedArguments = [], ArgumentList iterableArgument = ..., DynamicModifier modifier = ...)
Parameters:
  • namedArguments = []

    The named members of the dynamic object.

  • iterableArgument = ArgumentList()

    The iterable members of the dynamic object.

  • modifier = DynamicModifier()

    The ‘dynamic’ modifier keyword that precedes the content.

Attributes
childrenshared actual <NamedArgument|ArgumentList|DynamicModifier>[] children

The child nodes of this node.

Refines Expression.children ultimately refines Node.children
hashshared actual Integer hash

The hash value of the value, which allows the value to be an element of a hash-based set or key of a hash-based map. Implementations must respect the constraint that:

  • if x==y then x.hash==y.hash.

Therefore, a class which refines equals must also refine hash.

Because the Integer type is platform-dependent a compiler for a given platform is permitted to further manipulate the calculated hash for an object, and the resulting hash may differ between platforms.

Refines Object.hash
iterableArgumentshared ArgumentList iterableArgument

The iterable members of the dynamic object.

modifiershared DynamicModifier modifier

The ‘dynamic’ modifier keyword that precedes the content.

namedArgumentsshared NamedArgument[] namedArguments

The named members of the dynamic object.

Inherited Attributes
Attributes inherited from: Expression
Attributes inherited from: Node
Attributes inherited from: Object
hash, string
Methods
copyshared DynamicValue copy(NamedArgument[] namedArguments = ..., ArgumentList iterableArgument = ..., DynamicModifier modifier = ...)
Parameters:
  • namedArguments = this.namedArguments
  • iterableArgument = this.iterableArgument
  • modifier = this.modifier
equalsshared actual Boolean equals(Object that)

Determine if two values are equal. Implementations should respect the constraints that:

  • if x===y then x==y (reflexivity),
  • if x==y then y==x (symmetry),
  • if x==y and y==z then x==z (transitivity).

Furthermore it is recommended that implementations ensure that if x==y then x and y have the same concrete class.

A class which explicitly refines equals() is said to support value equality, and the equality operator == is considered much more meaningful for such classes than for a class which simply inherits the default implementation of identity equality from Identifiable.

Refines Object.equals
transformshared actual Result transform<out Result>(Transformer<Result> transformer)

Transform this node with the given transformer by calling the appropriate transformX method on the transformer.

If you have a Node node that’s actually an LIdentifier instance, then the runtime will call LIdentifier.transform; therefore, this method is by nature narrowing. This means that if transformer is a NarrowingTransformer, calling node.transform(transformer) is equivalent to calling transformer.transformNode(node). On the other hand, if transformer is a WideningTransformer, then the two operations are very different.

visitshared actual void visit(Visitor visitor)

Visit this node with the given visitor. Calls the appropriate visitX method on the visitor.

Refines Node.visit
Inherited Methods
Methods inherited from: Node
Methods inherited from: Object
equals